low-energy effective Hamiltonians for high-temperature superconducting cuprates BiSrCuO, BiSrCaCuO, HgBaCuO and CaCuO
arXiv:2206.01510 · doi:10.1103/PhysRevB.106.235150
Abstract
We derive low-energy effective Hamiltonians (LEH) for high-temperature superconducting (SC) copper oxides BiSrCuO (Bi2201, , K), BiSrCaCuO (Bi2212, , K), HgBaCuO (Hg1201, , K) and CaCuO (Ca11, , K), with different experimental optimal SC transition temperature and number of laminated CuO planes between the two neighboring block layers. We apply the latest methodology of the multiscale scheme for correlated electron systems (MACE), and focus on the LEH consisting of one antibonding (AB) Cu/O orbital centered on each Cu atom. We discuss prominent features of this LEH: (1) The ratio between the onsite effective Coulomb repulsion (ECR) and amplitude of nearest neighbour hopping increases with and , consistently with the expected increase in -wave SC correlation function with . One possible cause of the increase of is the replacement of apical O atoms by Cu atoms from neighbouring CuO planes when increases. Furthermore, we show that the increase in distance between Cu and apical O atoms decreases the effective screening (ES) by electrons outside of the LEH and increases . (2) For Hg1201 and Ca11, we show that decreases when hole doping per AB orbital increases, which may partly account for the disappearance of SC when exceeds the optimal value in experiment. (3) For , off-site inter-CuO plane ECR is comparable to off-site intra-CuO plane ECR. We discuss contributions of inter-CuO plane ECR to both and the stability of the SC state.
arXiv comment26 pages, 8 figures, 11 tables. The Supplemental Material contains the complete list of parameters for effective Hamiltonians presented in the main text, as well as complementary effective Hamiltonians mentioned in Footnote 1 (Page 2) and Footnote 2 (Page 3). This Supplemental Material may be obtained from the authors upon request
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